a) Fabrication process of a silk fabric-based respiration sensor. (b)

Download scientific diagram | (a) Fabrication process of a silk fabric-based respiration sensor. (b) Real-time monitoring of shallow breathing (black), normal breathing (blue), and fast breathing (red) with a humidity-sensitive textile-based device. Inset Fig. 4b is the optical photo of the EL device at different breathing states. (c) are the enlarged response curves corresponding to shallow breathing, normal breathing, and fast breathing, respectively. from publication: Textile-Based Humidity-Driven Wearable Electroluminescent for Visual Sensing | Miniaturization and integration have become a trend of modern wearable intelligent electronics. But how to visualize sensing information in a single-level device remains a challenge. Here, we present a humidity-driven textile-based electroluminescent (EL) interactive display | Electroluminescence, Sensing and Devices | ResearchGate, the professional network for scientists.

Response time and stability of the fabric-based pressure sensor: (a)

Printable wet-resistive textile strain sensors using bead-blended composite ink for robustly integrative wearable electronics - ScienceDirect

Photograph of the chip after post-processing with PI2555 and 3.8

Biosensors, Free Full-Text

Digitally-embroidered liquid metal electronic textiles for wearable wireless systems

PEDOT:PSS-modified cotton conductive thread for mass manufacturing of textile-based electrical wearable sensors by computerized embroidery - ScienceDirect

Bode diagrams of the PPy/GO sensor toward a low (23% RH), b medium

Fabrication Techniques and Sensing Mechanisms of Textile-Based Strain Sensors: From Spatial 1D and 2D Perspectives

Silk Fibroin-Based Wearable All-Fiber Multifunctional Sensor for Smart Clothing

Mei Liu's research works Shanghai University, Shanghai (SHU) and

Recent Progress on Smart Fiber and Textile Based Wearable Strain Sensors: Materials, Fabrications and Applications